FLYSIG: dataflow oriented delay-insensitive processor for rapid prototyping of signal processing

W. Hardt, B. Kleinjohann
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引用次数: 10

Abstract

As the one-chip integration of HW modules designed by different companies becomes more and more popular, reliability of a HW design and evaluation of the timing behavior during the prototype stage are absolutely necessary. One way to guarantee reliability is the use of robust design styles, e.g., delay insensitivity. For early timing evaluation, two aspects must be considered: a) the timing needs to be proportional to technology variations, and b) the implemented architecture should be identical for prototype and target. The first can be met also by delay insensitive implementation. The latter one is the key point. A unified architecture is needed for prototyping as well as implementation. Our new approach to rapid prototyping of signal processing tasks is based on a configurable, delay insensitive implemented processor called FLYSIG (dataflow oriented delay-insensitive signal processing). In essence, the FLYSIG processor can be understood as a complex FPGA where the CLBs are substituted by bit serial operators. The general concept is detailed and first experimental results are given for demonstration of the main advantages: delay insensitive design style, direct correspondence between prototyping and target architecture, high performance and reasonable shortening of the design cycle.
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面向数据流的延迟不敏感处理器,用于信号处理的快速原型
随着不同公司设计的硬件模块的单片集成越来越流行,硬件设计的可靠性和原型阶段的时序行为评估是非常必要的。保证可靠性的一种方法是使用稳健的设计风格,例如延迟不敏感。对于早期的时间评估,必须考虑两个方面:a)时间需要与技术变化成比例,b)原型和目标的实现架构应该是相同的。第一个条件也可以通过延迟不敏感的实现来满足。后者是关键。原型设计和实现都需要统一的体系结构。我们的信号处理任务快速原型的新方法是基于一个可配置的,延迟不敏感的实现处理器,称为FLYSIG(面向数据流的延迟不敏感信号处理)。从本质上讲,FLYSIG处理器可以理解为一个复杂的FPGA,其中clb由位串行运算符代替。详细介绍了总体概念,并给出了第一个实验结果,以证明其主要优点:延迟不敏感的设计风格,原型与目标结构的直接对应,高性能和合理缩短设计周期。
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